Sustainability in practice means that companies:

* Pinpoint their organizational readiness to pursue sustainability as a commercial theme,
* That they map the untapped commercial potential for fulfilling sustainability strategies – now and in the future,
* That they benchmark processes and the existing team
* That they develop their leaders to excel at sustainability leadership, and
* That they attract external candidates who demonstrably possess the experience and competencies to create exceptional business value through sustainability.

The Attraction of Corporate Social Responsibility

In the early part of the century, garnished from the national railroad epoch (1), steel tycoon Andrew Carnegie’s philosophy was that the capitalism was a system that allowed great wealth to be individually amassed. In 1901 he was the richest man in the world and he felt that it was the responsibility of those that had to wealth to disperse it, as “stewards,” to the common man for social equity(2).During this time the government did not regulate businesses, and consequently there was a great deal of labor exploitation. The theory and actions of this early philanthropist eased some of that tension.

Seventy years after Carnegie gave away a record $350 million and forty years ago, author Milton Friedman made a statement about charitable giving from a corporate standpoint. In his article, “The Social Responsibility of Business is to Increase its Profits,” he elaborates about the purpose of a free-enterprise, private-property system is to “…make as much money as possible(3) [for the owner]. His conclusion is that the owner can then give the money as they wish, but the corporation legally cannot. Friedman implies that corporate managers that give are “schizophrenic...shortsighted...[And] suicidal,” which is why the article probably received so much attention. His view is however, in alignment with the ways that things are today, so why then do corporations give away a percentage of their profits?

Today’s businesses do have government stipulated regulations, and one example is the tax benefit for charitable giving. The government has determined that giving enhances the quality of life, such as cleaner, safer, better educated, and culturally enhanced communities. History has proven this to be the case as community attributes create a more profound sense of cultural identity. An individual that feels more included in a community is more committed to giving back, whether this is as an employee, parent, or other part of the community web, thus creating social cohesion and stability.

Another consideration for corporate giving is to enhance the reputation of a firm. The identity, or branding, can take years to build, but can diminish rapidly with at-fault perceptions. An example is the company McMillian-Bloedel that overnight lost 5% of stock value due to a major customer that canceled all orders due to environmental news of misconduct(4). It’s been shown by a national marketing company, the AMP Agency, that 83% of people will trust a company more if it has been socially and environmentally responsible(5). Other benefits of the actions of the corporate philanthropy are the creation of new business opportunities, employee loyalty, and preferential government and regulatory treatment(6).

Friedmans suggestion that corporate giving is comparable to business insanity is not an appropriate implication. Perhaps his views eased the minds of the prior investors who felt guilty for not giving just a little bit back to the system. The savvier stakeholder will be considering charity, but terming it as the more popular title of Corporate Social Responsibility (CSR). This implies that the end goal for corporations has risen above simply selling a product or service. CSR is evolving, not only as a driver of innovation, but to significantly improve a brand’s image externally by being centered on people, planet, and profits. This modern concept that fuses business with the concerns of society would have made Carnegie, an unpretentious man, proud.

The box plot is lazy bell curve!

Multivariate Analysis (ANOVA) / Mar. 8th

You need a Multivariate Analysis (MV) test to evaluate multiple comparisons. With five catagorical varying treatments/factors/levels to test, the result would be 15 tables using a t-test analysis. By using an MV test, there would only be one table to review.

Plus, every time that you apply a test, there is a chance that it is wrong. With 20 tests there are good odds that the statistical conclusions are a mistake, in at least one (a one in twenty chance).

ANOVA: Analysis of Variance looks for any statistical difference across groups. How much do the results deviate form the mean? (Note: variance is the square of the standard deviation). The "R" foundation for statistical computing (freeware) can analyze this to run the data, but you would drop the results into Excel to better visualize them.

The Tukey is always the post-hoc test after the answer is found. What this means is the you need to group similar results to more easily see where differences are.

Introductions / Feb 27

Introductions: from general to specific. What is missing? What is interesting to others? How can I fill in the gaps?

Introduction

Phenotypic plasticity, i.e. the ability of a particular genotype to produce different phenotypes in response to environmental variation (West-Eberhard, 1989; Thompson, 1991: Via et al., 1995: Zhivotovsky et al., 1996; DeWitt et al., 1998; Pigliucci, 2005), has been the object of considerable interest and debate over the past two decades (Brookes 2007). Will snails grow significantly different based on their location? There are undoubtedly a variety of conditions that would influence snail size, including current flows (Palmer, 1979), temperature (Atkinson, 1994: Palmer, 1979: Trussell, 2000), area predators (Brooks & Remy, 2007: DeWitt et al., 1998), food availability and type (Burrows & Hughes, 1991), optimal digesting (Menge, 1974: Burrows & Hughes, 1991), and genetic factors (Thompson, 1991: Marko, 1998: Maruyama and Birky, 1991). Another consideration would be to analyze the affluent conditions, or chemical composition to rule out area contaminants as an influencing factor.

Our analysis we will start with the baseline of having no altered conditions. With the use of existing empirical data (Price 2007) this will be reviewed. Our particular study looks at the species Nucella lamellosa, known more commonly as “Dogwhelk,” a snail that lives in the Pacific Northwest. Total mass measurements were taken of this species, in three samplings over a 24 day period. The two locations that Dogwhelks were taken from, include False Bay, and from the north side of Cantilever pier at Roche Harbor, both locations are unique intertidal habitats on San Juan Island, in Washington state (Price, 2007).

Treatments were fed in the same way, with barnacles from a third locality, Jackson Beach, also on San Juan Island. All the conditions, including flow rates, were the same across all replicates in the two treatments (Price, 2010, personal communication). Both of the localities are protected from waves and have do have crabs (Price, 2010, personal communication). Locations are approximately 18 km apart².

t-tests revisited / Feb. 24

A t-test is used to determine the significance of the difference between two sets of data. In the experimental design snail changes of length and lip increment were measured during increased emersion body temperature conditions. The first t-test recorded differences in fraction of total length added. The second t-test measured increase of lip increment.

The control treatment was at 12 degrees, with two subsequent emersions of 20, and then 28 degrees. There was not statistically significant changes in the first temperature increased treatment. However, in the second, at 28 degrees, there was statistically significant increases in calcification morphology of length and width.

All errors bars represent one SD, and an asterisk (*) indicates that the response treatment mean is significantly different from those of other treatments.

1. For this graph, the research hypothesis tested is:
An increase in emersed body temperature will affect Nucella ostrina morphology.
2. The statistical null hypothesis for the data in the graph is represented by the control temperature of 12 degrees, which is the baseline.
3. The variables presented in the graph are the categories of total length and lip increment.
4. The statistical null hypothesis is rejected as the asterick indicates a significant difference.
5. The research hypothesis is accepted as mean growth in snail mass was significantly higher in the second temperature treatment.
6. The control treatment is 12 degrees.
7. The experimental treatments are 20 and 28 degrees, as described by Yamane & Gilman in their 2009 published report.

Response to peer review / Feb. 23

Dear reviewer:


You are correct in desiring for a more elaborate reason as to why further studies are needed for understand snail body mass increases. I did mention that our tests had insufficient variation to determine a solid conclusion. Just looking a difference in close proximity locations may not be a good as a sole reason.

Chances are very likely that food and water composition are not the only factors for size alterations. Predatory attacks also are a large component to as to how a snail will or will not gain body mass. The body mass also needs to be looked at to determine whether it is the shell or the soft tissue that is gaining in mass. Shells increase for several reasons including abundance of food and lack of predations. Soft tissues increase due to abundance of food, and adaption to current flows where stronger muscle attachment is a consideration.

Should you find an studies that relate further to current flow issues, do let me know. Thank you.